Dan Gamota | NextFlex: How do you choose between screen printing, stenciling, and inkjet printing when scaling hybrid electronics to production?
19:35 - 21:09
Other snippets from this talk
Summary of the clip:
How do you choose between screen printing, stenciling, and inkjet printing when scaling hybrid electronics to production?
Transitioning a hybrid electronics design from a pilot prototyping line to high-volume manufacturing (HVM) introduces complex technical hurdles in asset utilization. Unlike silicon wafers with standardized toolsets, printed electronics utilizes a heavily fragmented menu of options, including screen printing, stencil printing, and digital inkjet deposition. The ultimate selection of these deposition methods is not governed solely by design files, but by the specific capital assets of the contract manufacturer.
Electronic Manufacturing Services (EMS) providers operate on tight margins and are highly risk-averse, meaning they prefer to utilize existing capital equipment rather than purchase novel tooling. Consequently, manufacturing engineers must collaborate with EMS providers early in the product lifecycle to align design guidelines with existing surface-mount technology (SMT) and printing lines.
Ultimately, the choice of substrate, conductive ink, and mounting process is a multi-variable optimization problem. It balances the OEM's strict form, fit, and function requirements against the contract manufacturer's yield, quality control standards, and process capabilities for the upcoming production cycle.
In this short video, you can learn:
* Why existing capital assets and process familiarity at the EMS level dictate the printing methods chosen for high-volume hybrid electronics.
* The critical differences and decision criteria between using screen printing, stencil printing, and inkjet deposition in commercial manufacturing.
* How to manage early-stage co-investments and risk sharing with contract manufacturers to future-proof hardware scaling.
📋 **Clip Abstract**
This clip addresses the technical and strategic challenges of transitioning hybrid electronic processes from low-volume labs to commercial EMS factories. It details why printing method selection must align with existing manufacturing assets and process capabilities to achieve high yield and quality standards.
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#HybridElectronics, #StencilPrinting, #InkjetDeposition, #ScreenPrinting, #PrintedElectronics, #FlexibleElectronics
This is a highlight of the presentation:
Manufacturing Readiness for Hybrid Electronics
Future of Electronics RESHAPED USA 2026
10-11 June 2026
Computer History Museum, Mountain View, California, USA
Organised By:
TechBlick
More Highlights from the same talk.
07:18 - 09:16
How does hybrid electronics enable a 60% weight reduction in automotive electronic systems?
How does hybrid electronics enable a 60% weight reduction in automotive electronic systems?
Size, weight, power, and cost (SWaP-C) are no longer just military aerospace design terms; they have become the driving constraints for modern consumer electronics and automotive applications. In this technical segment, three high-volume commercial products are deconstructed to show how hybrid packaging allows designers to pack immense computational power into restrictive form factors.
The transition from heavy, discrete wiring and bulky PCBs to thin, rigid-flex substrates and printed components is unlocking new paradigms in range optimization. In electric vehicle applications, substituting traditional electronic enclosures and heavy wire harnesses with integrated hybrid electronics led to a massive 60% reduction in electronic system weight. This physical weight loss directly translates to a 10% range extension for the vehicle without modifying the battery chemistry.
Further down the miniaturization scale, the architecture of AR smart glasses and biometric smart rings is explored. Packing wireless radios, power management units, sensor suites, and silicon micro-chips into a consumer ring require printing critical traces directly onto flexible, curved substrates, proving that hybrid electronics has successfully transitioned from academic curiosity to high-volume commercialization.
In this short video, you can learn:
* How high-density hybrid integration enables power, compute, and wireless modules to fit into the ultra-thin temples of smart glasses.
* The engineering trade-offs of using rigid-flex substrates and printed conductive lines to reduce electronic package weight by 60%.
* How a modern smart ring utilizes advanced miniaturization and printed components to pack battery power and biometric sensing in a sub-centimeter loop.
📋 **Clip Abstract**
This clip analyzes the real-world impact of hybrid electronics through three commercially successful case studies, detailing its application in AR glasses, electric vehicles, and smart rings. It demonstrates how integrating printed elements onto rigid-flex substrates can achieve up to a 60% reduction in system weight and maximize SWaP-C efficiency.
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#FlexibleHybridElectronics, #RigidFlexSubstrates, #PrintedConductiveTraces, #StructuralElectronics, #AdditiveElectronics, #SWaPCOptimization
05:44 - 07:01
Why did the global disintegration of vertical manufacturing create the immediate need for hybrid electronics?
Why did the global disintegration of vertical manufacturing create the immediate need for hybrid electronics?
The definition of hybrid electronics goes far beyond simple flexible circuits; it represents a unified portfolio of manufacturing capabilities designed to reassemble a fragmented global supply chain. Over the last two decades, macroeconomic shifts forced traditional, vertically integrated electronics giants to divest their internal fabs and packaging facilities. This led to a hyper-focused industry structure where isolated companies became domain experts in highly specific, siloed steps of the hardware stack.
This extreme specialization created a massive gap in hardware innovation, making it incredibly difficult to design and manufacture multi-domain, heterogeneous systems. Hybrid electronics acts as the technological bridge, pulling together advanced printing, flexible substrates, fine-pitch surface mount technology, and silicon packaging under a single manufacturing framework.
By reassembling these historically isolated processes into a continuous, cohesive line, engineers can once again build integrated electronic systems with the design freedom of printed additive manufacturing and the high performance of crystalline semiconductors. This structural shift is essential for accelerating hardware transition times from lab prototyping to high-rate production.
In this short video, you can learn:
* Why the structural shift from vertically integrated OEMs to hyper-specialized manufacturers created a major fragmentation in hardware innovation.
* How hybrid electronics acts as a cohesive umbrella framework that merges printed materials, flexible substrates, and silicon packaging.
* The strategic role of NextFlex in rebuilding the integrated manufacturing and design ecosystems necessary for rapid lab-to-fab translation.
📋 **Clip Abstract**
This clip explains the historical and structural reasons behind the rise of hybrid electronics, showing how it solves the fragmentation of the modern electronics supply chain. By merging diverse vertical capabilities under one unified manufacturing ecosystem, hybrid electronics restores the innovation capacity once held by vertically integrated OEMs.
🔗 Link in comments 👇
#FlexibleHybridElectronics, #HeterogeneousIntegration, #AdditiveElectronics, #FinePitchSMT, #FlexibleSubstrates, #AdvancedPackaging